JPS6066942A - Detector for disturbed egg - Google Patents

Detector for disturbed egg

Info

Publication number
JPS6066942A
JPS6066942A JP58172758A JP17275883A JPS6066942A JP S6066942 A JPS6066942 A JP S6066942A JP 58172758 A JP58172758 A JP 58172758A JP 17275883 A JP17275883 A JP 17275883A JP S6066942 A JPS6066942 A JP S6066942A
Authority
JP
Japan
Prior art keywords
egg
ultraviolet rays
disturbed
light
optical filter
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Granted
Application number
JP58172758A
Other languages
Japanese (ja)
Other versions
JPH0443616B2 (en
Inventor
Masao Fujio
藤生 昌男
Koichi Akiyama
秋山 広一
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Meidensha Corp
Meidensha Electric Manufacturing Co Ltd
Original Assignee
Meidensha Corp
Meidensha Electric Manufacturing Co Ltd
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by Meidensha Corp, Meidensha Electric Manufacturing Co Ltd filed Critical Meidensha Corp
Priority to JP58172758A priority Critical patent/JPS6066942A/en
Publication of JPS6066942A publication Critical patent/JPS6066942A/en
Publication of JPH0443616B2 publication Critical patent/JPH0443616B2/ja
Granted legal-status Critical Current

Links

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  • Investigating, Analyzing Materials By Fluorescence Or Luminescence (AREA)
  • Meat, Egg Or Seafood Products (AREA)

Abstract

PURPOSE:To detect a disturbed egg optically, and to improve detection speed, by irradiating the white with ultraviolet rays, detecting fluorescence emitted from the yellow by a receptor element, deciding as to whether the detected egg is a disturbed egg or not. CONSTITUTION:The white 2 is irradiated with ultraviolet rays from the black light 1, fluorescence of the yellow of its own emitted only when the yellow is contained is gathered by the condenser 3a, only the fluorescence of the yellow is transmitted by the optical filter 3b, and converted into an electrical signal by the receptor element 3c. The electrical signal is amplified by the amplifying circuit 4a, outputted to the comparative circuit 4b, compared with the set value by the setting part 4c of comparative value, and decision signal is sent to the output part 4d when the detected egg is decided as a disturbed egg.

Description

【発明の詳細な説明】 不発明は、割卵後の卵黄と卵白が部分的に混会した状態
(乱n卯)を光学的に検出する検出装置に四するもので
ろる。
DETAILED DESCRIPTION OF THE INVENTION The invention is directed to a detection device that optically detects a state in which the egg yolk and albumen are partially mixed after breaking the egg.

菓子がA、マヨネーズ類等の食品製造業では卵を原料と
する食品が多い。こnら食品の原拐料として使用される
卵は、その利用形態により、卵の卵黄だけ?使用するも
のと、卵白だけを使用するものと、もう1つは卵黄およ
び卵白の両方を使用するものの3つに分類さnる。
Confectionery is A, and in the food manufacturing industry, such as mayonnaise, many foods are made from eggs. Depending on the form of use, is it only the egg yolk that is used as the bulk material for these foods? There are three types: those that use only egg white, and those that use both egg yolk and egg white.

ここで、前者2つの利用形態で使用する場合には一卵を
割卵後、卵黄と卵白とに分離する必要がめる。現在、こ
の分#1[工程は機械化さnて29、セパレート型の割
卵後により卵が自動的に割卵さ九ると同時に、卵黄と卵
白が自動的に分離嘔れるようになっている。このとき、
卵黄と卵白が完全に分離されずに、卵白中に卵黄が部分
的に混入してしまうことがあり、このような状態を慣用
的に「乱光卯」と呼んでいる。この乱光を2こした卵は
、卵白だけからなる原料に対しては不良品であって、卵
白だけからなる原料に混入する1iiJに除去する必要
がある。この除去は、従米人「H」が目視によって監視
し、乱f′Lヶおこした卵が発生したときはその都度除
去していた。したがって、機械による割卵速匹は、人間
が判お「できる限界速度以下で行なわfLるため作業能
率の低下を招いていた。この発明は、上記の点に勉みて
なさ九たもので、その目的とするところは、乱fL卵盆
九学的に検出することによって、割卵のスピードアッグ
を図るものである。
Here, when using in the former two usage forms, it is necessary to break one egg and separate it into egg yolk and egg white. Currently, this process #1 has been mechanized, and at the same time, the egg is automatically broken and the yolk and white are automatically separated. . At this time,
Sometimes the yolk and white are not completely separated, and some of the yolk gets mixed into the white, and this situation is conventionally called ``scattering.'' Eggs that have been exposed to this scattered light twice are inferior to raw materials made only of egg whites, and need to be removed before they are mixed into raw materials made only of egg whites. This removal was visually monitored by the American servant "H", and whenever a disturbed egg appeared, it was removed. Therefore, the speed at which eggs are broken by a machine is lower than the limit speed that humans can understand, resulting in a decrease in work efficiency.This invention did not study the above points, and The purpose is to speed up egg-breaking by detecting disordered fL egg trays logically.

このため不発明は卵白に紫外線を照射し、その結果卵黄
が発する螢光以外の光ケ光学フィルタで除去t、、 t
’e学フィルタを透過した光のみを受光素子で検出し、
その信号の強既を予め定めておいた比較値と比較して乱
n卯か否かの44J定を行うように溝数したものでるる
For this reason, the invention is to irradiate the egg white with ultraviolet rays, and as a result, remove the light other than the fluorescence emitted by the egg yolk using an optical filter.
'The light receiving element detects only the light that has passed through the electronics filter,
The number of grooves is determined so that the strength of the signal is compared with a predetermined comparison value to determine whether it is random or not.

以下不発明の一夾施例を図面に基いて詳述する。Hereinafter, one embodiment of the invention will be described in detail based on the drawings.

第1図は卵黄の螢光スペクトルを示したもので、卵黄に
紫外線全照射する2卵黄は螢光奮発する。
Figure 1 shows the fluorescence spectrum of egg yolk.The egg yolk, which is fully irradiated with ultraviolet rays, becomes extremely fluorescent.

この螢光スペクトルは、同図で示すように490〜60
0*lI+にわたり、そのピーク波長t! 5207I
m近辺である。こn lj 1711黄中のリボフラビ
ンに主に起因し、卵黄特有の螢光であってこの螢光のf
、t’Thtm気的に測定しようとするのが捌足原理で
ある。
This fluorescence spectrum is 490 to 60, as shown in the figure.
0*lI+, its peak wavelength t! 5207I
It is around m. This is mainly caused by riboflavin in the yolk, and this fluorescence is unique to the egg yolk.
, t'Thtm The principle of taki is to try to measure it visually.

IA2図がその創建装置の構成図である。lは紫外線照
射用光源で、例えは高圧水銀ラングと紫外想のみを選択
的に透過する光学フィルタよりな9、最大ピーク波11
−’f(365npとする紫外線を照射するブラックラ
イトが使用さ几る。、λは測定対象となる卵白、3は検
出部、≠は回路部で、こ几ら検出部3および回路部参は
第3図のように構成さnている。すなわち検出部3σ螢
光を集光するための集光レンズ3a、卵黄の螢光のみが
選択的に透過さ九る光学フィルタ3bおよび透過さルた
螢光を受光する受光素子3cよpなっている。ま几回路
部μは、増TI]回路4Laと、比較回路≠b、比較値
設定部4ACおよび出力部弘dよシなっている。
Figure IA2 is a configuration diagram of the creation device. 1 is a light source for ultraviolet irradiation, for example, a high-pressure mercury rung and an optical filter that selectively transmits only ultraviolet light 9, maximum peak wave 11
-'f (A black light that emits ultraviolet light of 365 np is used. λ is the egg white to be measured, 3 is the detection section, ≠ is the circuit section, and these are the detection section 3 and the circuit section. It is constructed as shown in Fig. 3.That is, the detection section includes a condenser lens 3a for condensing 3σ fluorescent light, an optical filter 3b that selectively transmits only the egg yolk fluorescence, and a transmitting filter. The light-receiving element 3c that receives fluorescent light is connected to the light-receiving element 3c.The matrix circuit section μ is connected to the intensifier TI circuit 4La, the comparison circuit ≠b, the comparison value setting section 4AC, and the output section d.

以上のように構成したものにおいて、光源でめるブラッ
クライト/jt)測定対象の卵白−2[紫外純金照射す
ると、卵白λの甲に卵黄が混入している場合には、m1
図で示すような卵黄特有の螢光を発する。この螢光は集
光ラング3aにより集光フィルタ さルた後、光学lpズJbによル卯黄の螢光のみが選択
的に透過さ几、受光素子jc[よりて電気イボ号[換え
られる。卵白に混入した卵への宛と11゜気イば号の大
きさとは相関門係があり、この電気18号を増巾回路μ
aによ)増巾した後比較回路≠bに出力する、比較回P
6’lbKは、予め比較値設定部4′Cにおいて設定さ
nた乱れ卵として判断すべき下限値が印加さn、てj?
す、この設定値と増[1」回路部ajりの出力値とが比
較回路4Abにて比較さtL、乱れ卵と判断したとき出
力部グaに判断信号部3の光学的波長特性を示し比もの
である。点線で示す特性Aが受光素子3aの相対感度を
示したものであシ、実線で示す特性Bが光学フィルタ3
bの相対透過率である。同図よp明らかなように、プを
学フィルタ3bの出力特性Bの波長ピーク値は第1図で
示す卵葭の螢光スペクトルと非當Gてよく一致しており
、その値は約520nmとなっている。
In the structure as described above, when the egg white to be measured -2 [ultraviolet pure gold is irradiated with a black light from a light source/jt), if the egg yolk is mixed in the shell of the egg white λ, m1
As shown in the figure, it emits the characteristic fluorescence of egg yolk. After this fluorescent light is filtered by the light collecting rung 3a, only the fluorescent light of the yellow light is selectively transmitted through the optical lps Jb. . There is a correlation between the size of the egg mixed in the egg white and the size of the 11゜Kiba.
a) Comparison circuit P output to comparison circuit ≠ b after amplification
6'lbK is applied with the lower limit value set in advance in the comparison value setting section 4'C and which should be determined as a disordered egg.
This set value and the output value of the increase [1] circuit section aj are compared in the comparator circuit 4Ab, and when it is determined that the egg is disordered, the optical wavelength characteristic of the judgment signal section 3 is shown in the output section ga. It is comparable. Characteristic A indicated by a dotted line indicates the relative sensitivity of the light receiving element 3a, and characteristic B indicated by a solid line indicates the relative sensitivity of the optical filter 3.
It is the relative transmittance of b. As is clear from the figure, the wavelength peak value of the output characteristic B of the optical filter 3b closely matches the fluorescence spectrum of the egg leopard shown in Figure 1, and the value is about 520 nm. It becomes.

trビーり波長のみならず、光学フィルタの透過帯1は
490〜57(ly+n程度の波長で、υ[j黄の螢光
スペクトルの強度の大きい部分を選択的に透過し1周囲
の光の影響を小さくしている。このことは、光学フィル
タ3bを用いることによって検出さ九た螢光物質に、透
過帯!以外の部分で波長のピークがあるような場合には
、その影留全少なくすること全意味する。
In addition to the tr-beam wavelength, the transmission band 1 of the optical filter is a wavelength of about 490 to 57 (ly + n), selectively transmitting the high-intensity portion of the yellow fluorescence spectrum and reducing the influence of surrounding light. This means that if the fluorescent substance detected by using the optical filter 3b has a wavelength peak in a region other than the transmission band, the shadow will be completely reduced. It means everything.

次に実側例を説明する。光臨lとして最大ピーク波長3
657mの特性を有し、且っ重圧水銀ランプと紫外線の
みを選択的に透過する光学フィルタよ!)なるブラック
ライト?使用したt、また光学フィルタ3bは、規格が
主波長52(J7+m、半値巾137L#1以下、透過
率40几前後である干渉フィルタケ用い、受光素子3a
はGaABP系シリコンダイオードで、その感肱波長範
囲は300〜6807+111でピーク波長が620土
30趨のものを用いた。
Next, a practical example will be explained. Maximum peak wavelength as light 3
It is an optical filter that has a characteristic of 657 m and selectively transmits only the pressure mercury lamp and ultraviolet rays! ) Naru black light? The optical filter 3b used was an interference filter with a standard of dominant wavelength 52 (J7+m, half-width 137L#1 or less, transmittance around 40), and the light receiving element 3a
A GaABP-based silicon diode having a sensitive wavelength range of 300 to 6807+111 and a peak wavelength of 620 to 30 was used.

この実測結果を示したのが第5(9)である。同図は縦
軸に正常卵白との出力比をとり、横軸に混入黄卵、*i
とったものである。図より明らかなように、卵白中に混
入した卵黄の鉦と、そ几の比較回路≠bに2ける正常卵
白との出力比の間には相関関係があることがわかる。し
たがって乱tt卵と判断すべき卵黄混入量Xに対応する
出力比Yのときの出プ月1ナヲ比較値設定部4’eで設
定することにより、比較回路部すは卵黄混入量X以上の
乱fL卵を判別することができる。
Section 5 (9) shows this actual measurement result. In this figure, the vertical axis shows the output ratio with normal egg white, and the horizontal axis shows the mixed egg yolk, *i
This is what I took. As is clear from the figure, there is a correlation between the output ratio of the egg yolk mixed in the egg white and the normal egg white in the comparison circuit ≠b. Therefore, by setting the comparative value setting section 4'e for the output ratio Y corresponding to the amount X of mixed egg yolk that should be judged to be a random egg, the comparison circuit section Random fL eggs can be identified.

以上のように不発明によfLば、従来は乱n、卵の検出
音人間の視覚によっていたものが、自動的に検出するこ
とがoJ能となり、このため検出速度が太11」に向上
されるものである。
As described above, due to the invention, the detection speed of eggs has been improved to 11" by automatically detecting the random noises and eggs that were previously detected by human vision. It is something that

【図面の簡単な説明】[Brief explanation of drawings]

ツ1図は卵黄のスペクトル図、第2図は不発明の一実施
例を示す構成図、第3図は本発明に使用される検出部及
び回路部の具体的構成図、第4図は検出部の光学的波長
特性図、第5図は側足結果図である。 l・・・光源、2・・・被測物である卵白、3・・・検
出弧部・・・回路部。 第1図 5L L (nm) 第2図 / 第3図 、・4 第4図 戎t (nm)
Figure 1 is a spectrum diagram of egg yolk, Figure 2 is a configuration diagram showing an embodiment of the invention, Figure 3 is a specific configuration diagram of the detection section and circuit section used in the present invention, and Figure 4 is a detection diagram. FIG. 5 is a side leg result diagram. 1...Light source, 2...Egg white as the object to be measured, 3...Detection arc section...Circuit section. Fig. 1 5L L (nm) Fig. 2/ Fig. 3, ・4 Fig. 4 t (nm)

Claims (1)

【特許請求の範囲】 は) 扱測足物である卵白に紫外縁を照射するための紫
外線照射用光源と、この光ゆλよりの紫外線照射により
卵白に混入した卵芭より発する螢光を集光レンズで集光
し、光学フィルタを介して卵黄の螢光を違択的[透過さ
ぞ、受光素子にて電気信号に変換する検出部と、この検
出部よりの出力値と予め設足さ几た設定値と比較し、乱
れ卵と判断したときに出力する回路部と全備えたことを
特徴とする乱几卵検出装置。 121 最大ピーク波長k 365 mとする高圧水銀
ラングと紫外線のみ?透過する光学フィルタからなる紫
外線照射用光源であることを特徴とする特許請求の範囲
第1項記載の乱れ卵検出装置。 3I 検出部の光学フィルタの送過帝は490〜570
77111の波長中を有することk /PJfMとする
特許請求の範囲第1項又l−を第2項記載の乱nv1]
(炙出装置i。
[Claims]:) A light source for irradiating ultraviolet rays to irradiate the albumen, which is a measurement object, with ultraviolet rays, and a light source for irradiating ultraviolet rays from this light source to collect fluorescence emitted from the egg pus mixed into the albumen. The light is collected by an optical lens, and the fluorescent light from the egg yolk is selectively transmitted through an optical filter. A wild egg detection device is characterized in that it is equipped with a circuit section that outputs an output when it is determined that the egg is a wild egg by comparing it with a set value. 121 High-pressure mercury rung with maximum peak wavelength k 365 m and ultraviolet rays only? The disturbed egg detection device according to claim 1, characterized in that the device is a light source for irradiating ultraviolet rays consisting of a transmitting optical filter. 3I The transmittance value of the optical filter of the detection section is 490 to 570
77111 in the wavelength of k/PJfM, or the disturbance nv1 according to claim 2, where l- is defined as k/PJfM]
(broiling device i.
JP58172758A 1983-09-19 1983-09-19 Detector for disturbed egg Granted JPS6066942A (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP58172758A JPS6066942A (en) 1983-09-19 1983-09-19 Detector for disturbed egg

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP58172758A JPS6066942A (en) 1983-09-19 1983-09-19 Detector for disturbed egg

Publications (2)

Publication Number Publication Date
JPS6066942A true JPS6066942A (en) 1985-04-17
JPH0443616B2 JPH0443616B2 (en) 1992-07-17

Family

ID=15947779

Family Applications (1)

Application Number Title Priority Date Filing Date
JP58172758A Granted JPS6066942A (en) 1983-09-19 1983-09-19 Detector for disturbed egg

Country Status (1)

Country Link
JP (1) JPS6066942A (en)

Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JP2001097780A (en) * 1999-09-30 2001-04-10 Toshiba Corp Aluminum nitride sintered body and substrate for semiconductor device using the same
JP2009527231A (en) * 2006-02-23 2009-07-30 サノボ・エンジニアリング・アクティーゼルスカブ Method for monitoring egg breaking, egg receiving device for holding egg contents, and egg breaking apparatus equipped with egg receiving device

Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JP2001097780A (en) * 1999-09-30 2001-04-10 Toshiba Corp Aluminum nitride sintered body and substrate for semiconductor device using the same
JP2009527231A (en) * 2006-02-23 2009-07-30 サノボ・エンジニアリング・アクティーゼルスカブ Method for monitoring egg breaking, egg receiving device for holding egg contents, and egg breaking apparatus equipped with egg receiving device

Also Published As

Publication number Publication date
JPH0443616B2 (en) 1992-07-17

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